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中国的气候和能源政策呈现出一种悖论:在以惊人的速度发展清洁能源的同时,也未停下新建燃煤电厂的步伐。

仅在2023年,中国就新建了70吉瓦(GW)的煤电装机容量,比2019年增长了四倍,占当年全球新增煤电装机容量的95%。

煤电产能的激增引发了人们对中国二氧化碳(CO2)排放和气候目标能否实现,以及对未来出现搁浅资产风险的担忧。

由于光伏和风能发电量不稳定,中国政府将煤炭作为保障能源安全和满足快速增长的用电高峰的手段。

与此同时,中国的电力行业在成本、需求模式、监管和市场运作方面正在发生重大变化。我们的新研究表明,用于证明新煤炭产能合理性的传统经济计算方式可能已经过时。

我们使用一个简单的分析指标来评估能满足用电高峰需求的最经济方式是什么。结果表明,光伏加电池储能的组合可能是比新建煤电更具成本效益的选择。

中国电力格局发生了怎样的变化?

在过去十年里,可再生能源和电池储能的成本大幅下降,高峰时段的住宅和商业用电需求激增,电力交易市场获得了更大的吸引力。

与此同时,中国还宣布了“双碳”目标,即在2030年前实现碳达峰、2060年前实现碳中和。鉴于这些转型,建设更多未减排的煤电厂与中国的长期气候承诺相冲突,而且对满足用电需求对增长来说,可能不再是最具成本效益的选择。它还占用了清洁能源系统转型急需的资金。

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替代指标如何评估成本?

我们的研究引入了一种替代指标,用于计算在满足不断增长的高峰用电需求的情况下,所需的最优成本投资。

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这一指标,即“净容量成本”(net capacity cost),是满足用电高峰需求所需的基础设施投资的年化固定成本,减去该设施带给电力市场的收入,或其“系统价值”(system value)。 在该指标中,负数意味着这些投资将带来利润,而非支出。

为了探索在中国使用的情境,我们使用了一个简单的例子:在一个假定省份,高峰用电需求增加了1500兆瓦(MW)、全年需求增加了6570吉瓦时(GWh)。

然后,我们概述了满足高峰和全年能源需求的五种策略(情况),其涵盖了从严重依赖煤电到光伏和电池储能相结合的方式。

在不同的案例中,资源衡量的规模基于它们能够可靠地满足高峰供应需求和年度能源需求的程度。

  • 情况1:新的煤炭发电能力可满足高峰和年度能源需求的所有增长。
  • 情况2:光伏可满足70%的年度能源需求增长,煤炭可满足30%的年度能源需求增长;光伏可满足525兆瓦的高峰供应需求(由于光伏发电可能不在高峰期间,因此基于“容量可信度”进行折减),而煤电可提供剩余的975兆瓦。
  • 情况3:光伏可满足所有年度能源需求增长;光伏和煤炭均可满足750兆瓦的高峰供应需求,同样通过容量可信度对光伏发电量进行折减。
  • 情况4:光伏满足所有年度能源需求增长;光伏和电池均为高峰供电需求提供750兆瓦;电池提供调频储备(用于管理精确至分钟的供需差异的备用电源)。
  • 情况5:光伏满足所有年度能源需求增长;广泛和电池均为高峰供电需求提供750兆瓦;电池提供能源套利(在价格或成本较低时充电,在价格或成本较高时放电)。

如下图所示,我们针对每种情况都计算了单个资源(煤、电池或光伏),以及整个系统每年获得1千瓦(kW)发电容量的年净成本,单位为人民币元。

表上半部分的资源净容量成本是指该资源的净成本(即年化固定成本减去该资源从提供能源和辅助服务,如调频,所获得的年收入)。正数表示电网运营商在增加或获取该资源时的净成本。

表下半部分的系统总净容量成本,是在每种情况下利用资源组合满足高峰需求增长的净成本。

我们用于计算系统净成本的权重是基于装机容量与高峰需求增长的比率。

不同能源组合满足用电需求的成本

情况 1 情况 2 情况 3 情况 4 情况 5
资源净容量成本 (元/千瓦/年, 每千瓦装机容量)
煤炭 424 424 512
电池 248 781
光伏 -128 -128 -128 -128
系统净容量成本 (元/千瓦/年, 每千瓦满足高峰用电需求且折减容量可信度后)
煤炭 471 306 236
电池 138 434
光伏 -223 -319 -319 -319
总计 471 83 -83 -181 115

为了对这一简单分析进行压力测试,我们研究了不同来源的各种价格的敏感性。

由于中国的光伏价格已经很低,我们的敏感性分析主要集中在煤炭、电池和其他分析所需投入的价格上。

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满足高峰用电需求最经济的方法是什么?

我们的结果表明,当电池储能提供调频储备时(情况4),光伏和储能的组合是满足高峰用电需求增长最具成本效益的选择。

在这种组合下,每获得1千瓦发电装机容量,电网运营商的成本为-181元(约-25美元或-20英镑)。

相比之下,新建煤电产能以满足高峰用电需求增长(情况1)是最昂贵的方案,每获得1千瓦装机容量的净容量成本为471元(约合65美元或52英镑)。

情况3,即大型煤电厂仅用作备用电源(几乎不发电),在中国可能出于政治原因而至少在短期内不可行。

另外两种情况(情况2和情况5)更具可比性,但鉴于自本分析报告发布以来,电池价格下降了30%以上,约为每瓦时(Wh)1元人民币(约合0.14美元或0.11英镑),因此情况5中的电池可能比情况2中的煤炭更具经济吸引力。

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我们的解决方案如何助力中国实现气候目标?

我们的分析表明,为了应对不断变化的形势,在满足中国日益增长的能源需求的同时,实现其气候目标的近期战略是将电池储能纳入电力市场。

目前,中国政府允许包括电池在内的“新型储能”参与电力市场。然而,详细规定尚不明确,电池的参与可以更简单。

例如,电池储能不被允许提供“运转储备”,即为应对意外的供需误差所预留的发电量。如果允许电池储能提供运转储备,将增强其商业价值。

允许电池储能更多地参与市场将促进电池储能系统的持续创新和降低成本,同时为系统运营商提供宝贵的运营经验。

这种策略将与市场效益相符,并反映美国和欧洲近期的电力市场经验。

这也将有助于解决近期的产能和能源需求,因为电池和光伏发电通常比燃煤电厂的建设速度更快。

此外,它还有助于缓解未来新增燃煤发电与可再生能源之间的冲突。主要作为可再生能源发电备用电源的新建燃煤电厂要么很少运营,要么侵占了其他现有煤炭发电厂的运营时间和净收入,从而产生新搁浅资产的风险。

通过继续进行电力市场改革,也将促进对可再生能源发电和电力储存进行更有效的投资。

允许市场制定批发市场电价、允许可再生能源发电和电力储存参与批发市场,这可以提高其收入和利润。

此外,改革还将鼓励高效利用储能,这是我们的关键发现。储能可以为电力系统提供多种功能;批发电价有助于引导储能运营以最低的成本实现具有最高价值的功能。

中国国家能源局最近发出指令,要求将新型储能设施(非抽水蓄能)纳入电网调度运行,这是向我们概述的改革迈出的一步。

可能需要进一步确定适当的补偿机制,例如在某些省份对此类储能设施提供的所有服务进行容量补偿,以促进这些储能设施的可持续发展和并网。

最后,仅靠增加供应不太可能成为满足中国电力需求增长的最低成本方式。提高终端使用效率和“需求响应”也有助于降低供电的总体成本。

随着中国电力市场改革的不断深入,连接多个省份的区域市场设计,以及鼓励省份间资源共享的区域资源充裕性规划,也有助于以最具成本效益和最低碳的方式满足中国不断增长的用电量和高峰需求。

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The post 嘉宾来稿:满足中国增长的用电需求 光伏加储能“比新建煤电更实惠” appeared first on Carbon Brief.

嘉宾来稿:满足中国增长的用电需求 光伏加储能“比新建煤电更实惠”

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Explainer: Why gas plays a minimal role in China’s climate strategy

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Ten years ago, switching from burning coal to gas was a key element of China’s policy to reduce severe air pollution.

However, while gas is seen in some countries as a “bridging” fuel to move away from coal use, rapid electrification, uncompetitiveness and supply concerns have suppressed its share in China’s energy mix.

As such, while China’s gas demand has more than doubled over the past decade, the fuel is not currently playing a decisive role in the country’s strategy to tackle climate change.

Instead, renewables are now the leading replacement for coal demand in China, with growth in solar and wind generation largely keeping emissions growth from China’s power sector flat.

While gas could play a role in decarbonising some aspects of China’s energy demand – particularly in terms of meeting power demand peaks and fuelling heavy industry – multiple factors would need to change to make it a more attractive alternative.

Small, but impactful

The share of gas in China’s primary energy demand is small and has remained relatively unchanged at around 8-9% over the past five years.

It also comprises 7% of China’s carbon dioxide (CO2) emissions from fuel combustion, according to the International Energy Agency (IEA).

Gas combustion in China added 755m tonnes of CO2 (MtCO2) into the atmosphere in 2023 – double the total amount of CO2 emitted by the UK.

However, its emissions profile in China lags well behind that of coal, which represented 79% of China’s fuel-linked CO2 emissions and was responsible for almost 9bn tonnes of CO2 emissions in 2023, according to the same IEA data.

Gas consumption continues to grow in line with an overall uptick in total energy demand. Chinese gas demand, driven by industry use, grew by around 7-8% year-on-year in 2024, according to different estimates.

This rapid growth is, nevertheless, slightly below the 9% average annual rise in China’s gas demand over the past decade, during which consumption has more than doubled overall, as shown in the figure below.

Chart showing China's gas consumption has doubled in a decade
Total demand for gas in China, 1965-2024, billion cubic metres. Source: Energy Institute statistical review of world energy 2025.

The state-run oil and gas company China National Petroleum Corporation (CNPC) forecast in 2025 that demand growth for the year may slow further to just over 6%.

The majority of China’s gas demand in 2023 was met by domestic gas supply, according to the Institute for Energy Economics and Financial Analysis (IEEFA).

Most of this supply comes from conventional gas sources. But incremental Chinese domestic gas supply in recent years has come from harder-to-extract unconventional sources, including shale gas, which accounted for as much as 45% of gas production in 2024.

Despite China’s large recoverable shale-gas resources and subsidies to encourage production, geographical and technical limitations have capped production levels relative to the US, which is the world’s largest gas producer by far.

CNPC estimates Chinese gas output will grow by just 4% in 2025, compared with 6% growth in 2024. Nevertheless, output is still expected to exceed the 230bn cubic metre national target for 2025.

Liquified natural gas (LNG) is China’s second most-common source of gas, imported via giant super-cooled tankers from countries including Australia, Qatar, Malaysia and Russia.

This is followed by pipeline imports – which are seen as cheaper, but less reliable – from Russia and central Asia.

One particularly high-profile pipeline project is the Power of Siberia 2 pipeline project. However, Beijing has yet to explicitly agree to investing in or purchasing the gas delivered by the project. Disagreements around pricing and logistics have hindered progress.

Evolving role

Beijing initially aimed for gas to displace coal as part of a broader policy to tackle air pollution.

A three-year action plan from 2018-2020, dubbed the “blue-sky campaign”, helped to accelerate gas use in the industrial and residential sectors, as gas displaced consumption of “dispersed coal” (散煤)”– referring to improperly processed coal that emits more pollutants. 

Meanwhile, several cities across northern and central China were also mandated to curtail coal usage and switch to gas instead. Many of these cities were based in provinces with a strong coal mining economy or higher winter heating demand.

China’s pollution levels saw “drastic improvement” as a result, according to a report by research institute the Centre for Research on Energy and Clean Air (CREA).

(In January 2026, there were widespread media reports of households choosing not to use gas heating despite freezing temperatures, as a result of high prices following the expiry of subsidies for gas use.)

Industry remains the largest gas user in China, with “city gas” – gas delivered by pipeline to urban areas – trailing in second, as shown in the figure below. Power generation is a distant third.

Chart showing that industry is the largest gas user in China, followed by residential gas sue
Gas consumption by sector in 2023, billion cubic metres. Source: China Natural Gas Development Report (2024).

Gas has never gained momentum in China’s power sector, with its share of power generation remaining at 4% while wind and solar power’s share has soared from 4% to 22% over the past decade, Yu Aiqun, a research analyst at the US-based thinktank Global Energy Monitor, tells Carbon Brief.

Yu adds that this stagnation is largely due to insufficient and unreliable gas supply, which drives up prices and makes gas less competitive compared to coal and renewables. She says:

“With the rapid expansion of renewables and ongoing geopolitical uncertainties, I don’t foresee a bright future for gas power.”

Average on-grid gas-fired power prices of 0.56-0.58 yuan per kilowatt hour (yuan/kWh) in China are far higher than that of around 0.3-0.4 yuan/kWh for coal power, according to some industry estimates. Recent auction prices for renewables are even cheaper than this.

Meanwhile, the share of renewables in China’s power capacity stood at 55% in 2024, compared with gas at around 4%.

Generation from wind and solar in particular has increased by more than 1,250 terawatt-hours (TWh) in China since 2015, while gas-fired generation has increased by just 140TWh, according to IEEFA.

As the share of coal has shrunk from 70% to 61% during this period, IEEFA suggests that renewables – rather than gas – are displacing coal’s share in the generation mix.

However, China’s gas capacity may still rise from approximately 150 gigawatts (GW) in 2025 to 200GW by 2030, Bloomberg reports.

A report by the National Energy Administration (NEA) on development of the sector notes that gas will continue to play a “critical role” in “peak shaving”, where gas turbines can be used for short periods to meet daily spikes in demand. As such, the NEA says gas will be an “important pillar” in China’s energy transition.

In 2024, a new policy on gas utilisation also “explicitly promoted” the use of gas peak-shaving power plants, according to industry outlet MySteel.

China’s current gas storage capacity is “insufficient”, according to CNPC, reducing its ability to meet peak-shaving demand. The country built 38 underground gas storage sites with peak-shaving capacity of 26.7bn cubic metres in 2024, but this accounts for just 6% of its annual gas demand.

Transport use

Gas is instead playing a bigger part in the displacement of diesel in the transport sector, due to the higher cost competitiveness of LNG as a fuel – particularly in the trucking sector.

CNPC expects that LNG displaced around 28-30m tonnes of diesel in the trucking sector in 2025, accounting for 15% of total diesel demand in China.

This is further aided by policy support from Beijing’s equipment trade-in programme, part of efforts to stimulate the economy.

However, gas is not necessarily a better option for heavy-duty, long-haul transportation, due to poorer fuel efficiency compared with electric vehicles (EVs).

In fact, “new-energy vehicles” (NEVs) – including hydrogen fuel-cell, pure-electric and hybrid-electric trucks – are displacing both LNG-fueled trucks and diesel heavy-duty vehicles (HDVs).

In the first half of 2025, battery-electric models accounted for 22% of all HDV sales, a year-on-year increase of 9%, while market share for LNG-fueled trucks fell from 30% in 2024 to 26%.

Gas can be cheaper than oil but is not competitive with EVs and – with the emergence of zero-emission fuels such as hydrogen and ammonia – gas may eventually lose even this niche market, says Yu.

Supply security

Chinese government officials frequently note that China is “rich in coal, poor in oil and short of gas” (“富煤贫油少气”). Concerns around import dependence have underpinned China’s focus on coal as a source of energy security.

However, Beijing increasingly sees electrification as a more strategic way to decarbonise its transport sector, according to some analysts.

“Overall, electrification is a clear energy security strategy to reduce exposure to global fossil fuel markets,” says Michal Meidan, head of the China energy research programme at the Oxford Institute for Energy Studies.

Chinese oil and gas production grew dramatically in the last few years under a seven-year action plan from 2019-25, as Beijing ordered its state oil firms to ramp up output to ensure energy security.

Despite this, gas import dependency still hovers at around 40% of demand. This, according to assessments in government documents, exposes the country to price shocks and geopolitical risks.

The graph below shows the share of domestically produced gas (dark blue), LNG imports (mid-blue) and pipeline imports (light blue), in China’s overall gas supply between 2017 and 2024.

Chart showing that China produces most of its gas domestically, but imports around 40% of its supply
China’s gas supply by source, 2017-2024, billion cubic metres (bcm). Source: IEEFA.

“Gas use is unlikely to play a significant role in decarbonising the power system, but could be more significant in industrial decarbonisation,” Meidan tells Carbon Brief.

She estimates that if LNG prices fall to $6 per million British thermal units (btu), compared to an average of $11 in 2024-25, this could encourage fuel switching in the steel, chemical manufacturing, textiles, ceramics and food processing industries.

The chart below shows the year-on-year change in gas demand between 2001-2022.

Chart showing that industrial gas demand rising overall, although some years see growth slowing
Year-on-year changes in Chinese industry’s gas demand by sector, 2001-2023, bcm. Source: National Bureau of Statistics (NBS), OIES.

Growth in gas demand has been decelerating in some industries in recent years, such as refining. But it also remains unclear if Beijing will adopt more aggressive policies favouring gas, Meidan adds.

A roadmap developed by the Energy Research Institute (ERI), a thinktank under the National Development and Reform Commission’s Academy of Macroeconomic Research, finds that gas only begins to play an equivalent or greater role in China’s energy mix than coal by 2050 at the earliest – 10 years ahead of China’s target for achieving carbon neutrality.

Both fossil fuels play a significantly smaller role than clean-energy sources at this point.

Wang Zhongying and Kaare Sandholt, both experts at the ERI, write in Carbon Brief:

“Gas does not play a significant role in the power sector in our scenarios, as solar and wind can provide cheaper electricity while existing coal power plants – together with scaled-up expansion of energy storage and demand-side response facilities – can provide sufficient flexibility and peak-load capacity.”

Ultimately, China’s push for gas will be contingent on its own development goals. Its next five-year plan, from 2026-2030, will build a framework for China’s shift to controlling absolute carbon emissions, rather than carbon intensity.

Recent recommendations by top Chinese policymakers on priorities for the next five-year plan did not explicitly mention gas. Instead, the government endorses “raising the level of electrification in end-use energy consumption” while also “promoting peaking of coal and oil consumption”.

The Chinese government feels that gas is “nice to have…if available and cost-competitive but is not the only avenue for China’s energy transition,” says Meidan.

The post Explainer: Why gas plays a minimal role in China’s climate strategy appeared first on Carbon Brief.

Explainer: Why gas plays a minimal role in China’s climate strategy

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Colombia aims to launch fossil fuel transition platform at first global conference

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Colombia is seeking to use this year’s first global conference on transitioning away from fossil fuels to launch a permanent platform that would help a “coalition of the willing” accelerate the shift away from planet-heating coal, oil and gas beyond the UN climate process.

The flagship event, due to take place in the Colombian city of Santa Marta on April 28-29, will bring together countries that recognise the urgency of the fossil fuel transition to build the political and financial means to make it viable, Maria Fernanda Torres Penagos, director of climate change in Colombia’s Environment Ministry, told a briefing hosted by the World Resources Institute (WRI).

“Although there is growing consensus to gradually eliminate fossil fuels, there were still no specific spaces or meeting places dedicated to comprehending and addressing the pathways needed to overcome economic, fiscal and social dependence on fossil fuels, especially for producing countries,” she said.

‘Necessary complement’ to UNFCCC

Co-hosted by the Netherlands, the conference will convene governments, experts, industry leaders and Indigenous representatives to map “legal, economic and social pathways” for a just phase-out of fossil fuels. The initiative won public support at COP30 from 24 countries, including major fossil fuel producers Australia and Mexico, alongside several European, Latin American and Pacific island nations.

The event is regarded as an attempt to advance global discussions on transitioning away from fossil fuels alongside the formal UN climate negotiations. Since governments made a broad commitment to do that at the COP28 climate summit in 2023, strong opposition from petrostates has stalled progress on addressing the primary cause of global warming.

Former Irish President and climate justice advocate Mary Robinson told this week’s briefing that the conference is a “necessary complement” to the UN climate regime. “The UNFCCC has been so invaded by the fossil fuel lobby that it is incapable now of including in its outcomes that we must phase out fossil fuels,” she added. “It seems ridiculous, but it is the reality.”

    The final agreement struck by governments at COP30 in November failed to mention fossil fuels, despite a coalition of more than 80 countries pushing for it to include a formal process for a global roadmap to phase out coal, oil and gas. As a compromise, the Brazilian COP presidency promised it would coordinate work to create the roadmap outside the UN regime, including by teaming up with the Colombian initiative.

    Practical support for developing countries

    Torres Penagos said the April summit will produce a series of reports and scientific inputs to identify practical pathways for key stages of the transition. It also aims to establish a permanent international platform to support countries that want to move ahead and “ensure continuity” through future editions of the conference, where more states could join the initial group.

    The event’s organisers are expected to produce a chair’s summary that can feed back into the official UN climate talks, Fossil Fuel Non-Proliferation Treaty Initiative director Alex Rafalowicz told a Climate Home News webinar last week.

    Robinson said that, for the first time, the conference will enable discussions over the fossil fuel transition in a wholehearted, genuine and honest way, while highlighting the importance of justice. She also hopes it will establish a broad coalition of governments, international institutions, business and philanthropies determined to see the end of the fossil fuel era.

    Rachel Kyte, the UK’s climate envoy, said fossil fuel-producing countries in the developing world, like Namibia, Guyana and Nigeria, need the international community to help them imagine what the energy transition looks like for them.

    “Are we good enough to be practical and supportive and not just stand on our soapbox somewhere and wag our fingers?” she asked during the briefing. “And can we have it be a healing process and not as toxic and divisive as it was in Belém?”

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    Why Greenland is indispensable to global climate science

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    Professor Martin Siegert is Deputy Vice-Chancellor (Cornwall) at the University of Exeter and Chair of The UK Arctic and Antarctic Partnerships committee.

    A 30-minute stroll across New York’s Central Park separates Trump Tower from the American Museum of Natural History. If the US president ever found himself inside the museum he could see the Cape York meteorite: a 58-tonne mass of iron taken from northwest Greenland and sold in 1897 by the explorer Robert Peary, with the help of local Inuit guides.

    For centuries before Danish colonisation, the people of Greenland had used fragments of the meteorite to make tools and hunting equipment. Peary removed that resource from local control, ultimately selling the meteorite for an amount equivalent to just US$1.5 million today. It was a transaction as one-sided as anything the president may now be contemplating.

    But Donald Trump is now eyeing a prize much larger than a meteorite. His advocacy of the US taking control of Greenland, possibly by force, signals a shift from deal-making to dominance. The scientific cost would be severe. A unilateral US takeover threatens to disrupt the open scientific collaboration that is helping us understand the threat of global sea-level rise.

      Greenland is sovereign in everything other than defence and foreign policy, but by being part of the Kingdom of Denmark, it is included within NATO. As with any nation, access to its land and coastal waters is tightly controlled through permits that specify where work may take place and what activities are allowed.

      Over many decades, Greenland has granted international scientists access to help unlock the environmental secrets preserved within its ice, rocks and seabed. US researchers have been among the main beneficiaries, drilling deep into the ice to explain the historic link between carbon dioxide and temperatures, or flying repeated NASA missions to map the land beneath the ice sheet.

      The whole world owes a huge debt of thanks to both Greenland and the US, very often in collaboration with other nations, for this scientific progress conducted openly and fairly. It is essential that such work continues.

      The climate science at stake

      Research shows that around 80% of Greenland is covered by a colossal ice sheet which, if fully melted, would raise sea level globally by about 7 metres (the height of a two storey house). That ice is melting at an accelerating rate as the world warms, releasing vast amounts of freshwater into the North Atlantic, potentially disrupting the ocean circulation that moderates the climate across the northern hemisphere.

      The remaining 20% of Greenland is still roughly the size of Germany. Geological surveys have revealed a wealth of minerals, but economics dictates that these will most likely be used to power the green transition rather than prolong the fossil fuel era.

      While coal deposits exist, they are currently too expensive to extract and sell, and no major oil fields have been discovered. Instead, the commercial focus is on “critical minerals”: high-value materials used in renewable technologies from wind turbines to electric car batteries. Greenland therefore holds both scientific knowledge and materials that can help guide us away from climate disaster.

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      Unilateral control could threaten climate science

      Trump has shown little interest in climate action, however. Having already started to withdraw the US from the Paris climate agreement for a second time, he announced in January 2026 the country would also leave the Intergovernmental Panel on Climate Change, or IPCC, the global scientific body that assesses the impacts of continued fossil-fuel burning. His rhetoric to date has been about acquiring Greenland for “security” purposes, with some indications of accessing its mineral wealth, but without mention of vital climate research.

      Under the 1951 Greenland defence agreement with Denmark, the US already has a remote military base at Pituffik in northern Greenland, now focused on space activities. While both countries remain in Nato, the agreement already allows the US to expand its military presence if required. Seeking to guarantee US security in Greenland outside Nato would undermine the existing pact, while a unilateral takeover would risk scientists in the rest of the world losing access to one of the most important climate research sites.

      Lessons from Antarctica and Svalbard

      Greenland’s sovereign status and its governance is different to some other notable polar research locations. For example, Antarctica has, for more than 60 years, been governed through an international treaty ensuring the continent remains a place of peace and science, and protecting it from mining and other environmental damage.

      Svalbard, on the other hand, has Norwegian sovereignty courtesy of the 1920 Svalbard treaty but operates a largely visa-free system that allows citizens of nearly 50 countries to live and work on the archipelago, as long as they abide by Norwegian law. Interestingly, Norway claims that scientific activities are not covered by the treaty, to almost universal disagreement among other parties. Russia has a permanent station at Barentsburg, Svalbard’s second-largest settlement, from which small levels of coal are mined.

      Unlike Antarctica or Svalbard, Greenland has no treaty that explicitly protects access for international scientists. Its openness to research therefore depends not on international law, but on Greenland’s continued political stability and openness – all of which may be threatened by US control.

      If it is minded to take a radical approach, Greenland could develop its own treaty-style approach with selected partner states through NATO, enabling security cooperation, mineral assessment and scientific research to be carried out collaboratively under Greenlandic regulations.

      The future for Greenland should lie with Greenlanders and with Denmark. The future of climate science, and the transition to a safe prosperous future worldwide, relies on continued access to the island on terms set by the people that live there. The Cape York meteorite – taken from a site just 60 miles away from the US Pituffik Space Base – is a reminder of how easily that control can be lost.


      This article is republished from The Conversation under a Creative Commons license. Read the original article.

      The post Why Greenland is indispensable to global climate science appeared first on Climate Home News.

      Why Greenland is indispensable to global climate science

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